A system and method for automatic closure of sample vessels such as vessels with medical laboratory samples, having a plurality of identically shaped, stackable closure caps with a convex outer face and concave inner face that are stacked in a closure cap stack such that an upper closure cap in the stack bears with its convex outer face on the concave inner face of a lower closure cap lying immediately below in the stack. The system includes a closure gripper for gripping an uppermost closure cap from the stack, for transferring the gripped closure cap to the sample vessel to be closed, and for introducing the gripped closure cap into an opening of the sample vessel in order to tightly close the opening. The closure gripper has a centering piece insertable into a closure cap such that it bears on the concave inner face of the closure cap.

Described is a lateral flow high throughput assay device analyzer for preparing and analyzing a plurality of lateral flow assay samples. The analyzer comprises a cartridge stage for supporting an assay cartridge, an elevation adjustment mechanism, and a translation adjustment mechanism for aligning the cartridge stage and assay cartridge relative to a vertical support structure, fluid metering device, and detection device for high throughput lateral flow assay analysis.

A device for loading an automated analysis system is presented. The device comprises a chassis, a movable loading element movably coupled to the chassis and configured to move between a first and a second position, a holding structure, the holding structure being floatingly coupled to the movable loading element, the holding structure being configured to hold a receptacle for material to be loaded into the automated analysis system, a first alignment element attached to the chassis and a second alignment element attached to the holding structure. The first alignment element is configured to engage with the second alignment element to align the holding structure in a predetermined position relative to the chassis when the movable loading element is in the second position.

A handling system for high throughput processing of a large volume of biological samples is provided herein. Such systems can include an array support assembly that supports multiple diagnostic assay modules in an array having at least two dimensions, a loader that loads multiple diagnostic assay cartridges within the multiple diagnostic assay modules. The array support assembly can be movable relative the loader to facilitate loading and unloading so as to provide more efficient processing.

An analytical system is disclosed which recognizes different types of consumables with an identical footprint based on a unique surface geometry of each consumable. The analytical system includes stackers into which the consumables can be loaded either automatically or by the user. The stacker for one specific type of consumable recognizes the type of consumable based on its unique surface geometry.

A handling system for high throughput processing of a large volume of biological samples is provided herein. Such systems can include an array support assembly that supports multiple diagnostic assay modules in an array having at least two dimensions, a loader that loads multiple diagnostic assay cartridges within the multiple diagnostic assay modules. The array support assembly can be movable relative the loader to facilitate loading and unloading so as to provide more efficient processing.

The present invention describes an automated platform for inoculating a variety of receptacles with biological samples for testing and analysis. The lab automation system includes a plurality of modules used to automate the inoculation of media for subsequent analysis. In this regard, the lab automation system has one module to enter specimen/order information and store an inventory of petri dishes. Another module is used to label the sample receptacles with a unique identifier that associates the receptacles with the sample. Yet another module includes a robot for retrieving sample and inoculating the receptacles. The sample inoculation module also includes an apparatus that will receive slides, inoculate those slides, and further process the slides for analysis. Finally, the lab automation system includes a module that streaks the culture media with the sample. Thus, the automated lab system described herein provides consistent samples with minimal input from a lab operator.

A preprocessing apparatus uses preprocessing kits prepared for samples, respectively, sets the preprocessing kits in plural processing ports provided so as to correspond to preprocessing items, and executes a predetermined preprocessing item. A controller which controls operations of a carrying mechanism holding and carrying the preprocessing kits, and processing parts executing the preprocessing items in the respective processing ports, includes a processing-state control part, a random access part, and a preprocessing part. The random access part is configured to check availability of a preprocessing port corresponding to a preprocessing item to be executed on a sample contained in a preprocessing kit, and set the preprocessing kit in a processing port if the processing port is available as a processing port corresponding to the preprocessing item. The preprocessing part executes a corresponding preprocessing item on a sample in a preprocessing kit when the preprocessing kit is set in the processing port.

A sample tube rack for receiving at least one sample tube comprises an upper part comprising an upper surface, wherein at least one upper opening for receiving the sample tube is provided in the upper surface; an intermediate part comprising an intermediate surface, wherein at least one intermediate opening for receiving the sample tube is provided in the intermediate surface; and a lower part comprising a supporting surface, wherein at least one supporting position for supporting the sample tube is provided in the supporting surface. Therein, the intermediate part is connected to both the upper part and the lower part such that the at least one upper opening is substantially aligned above the at least one intermediate opening and above the at least one supporting position for receiving the at least one sample tube. At least one gripping orifice is provided in a lateral side of the lower part.

Discussed herein are methods and devices for storing, handling, loading or dispensing of pipette tips. Some embodiments allow repetitive loading of an array of multiple pipette tips that are stored in a nested configuration.